Abstract
Standard Lambda-CDM cosmology relies on independent, unverified parameters—specifically cold dark matter particles and an ungrounded vacuum energy density scalar (Lambda)—to force mathematical consistency within rigid Riemannian spacetime models. This paper unifies these macroscopic anomalies under the Material Volumetric Monism paradigm, demonstrating that what mainstream models observe as distinct "dark" phenomena are phase states of a continuous, 2D pre-geometric viscoelastic substrate phase fluid projecting 3D volumetric fields.
By evaluating the system's global wave mechanics and informational processing costs, we eliminate open thermodynamic data sinks. We demonstrate that dark matter is a macroscopic manifestation of localized substrate pushback shear stress, while dark energy is the uniform, semiclassical Landauer data erasure overhead occurring at the Cosmological Future Causal Horizon. Crucially, this horizon is formalized not as an open void, but as the outer boundary shell of a global, macro-scale Black Hole Recycler Engine.
Information is uncoiled at this perimeter, routed along the subterranean substrate layer, and re-injected as the low-entropy, flat-signature neutrino ocean cusp state traversing the threshold between 2D geometry and 3D wave amplitude. This master framework establishes a flawless, scale-invariant closed loop where cosmic black holes function as watchdog circuit breakers designed to execute phase inversions, flush high-entropy spatial caches, and return the local medium to a clean baseline state (\(S_\tau = 0\)).
Creative Commons License
This work is licensed under a Creative Commons Attribution 4.0 License.
Recommended Citation
Eckes, Christopher L., "The Fluidic Unification of Cosmological Anomalies: Resolving Dark Matter, Dark Energy, and the Neutrino Cusp under Material Volumetric Monism", Technical Disclosure Commons, ()
https://www.tdcommons.org/dpubs_series/12606